A robot comprises an auger-based drive system, a memory, and a processor coupled with the memory and configured to control movement of the robot relative to a piled granular material in a bulk store, via the auger-based drive system, such that the robot traverses a first surface of the piled granular material in a mapping pattern. The processor is further configured to record a plurality of three-dimensional locations of the robot during the traversal in the mapping pattern. The processor or a computer system coupled with the processor is configured to assemble the plurality of three-dimensional locations of the robot into a three-dimensional surface map of the first surface of the piled granular material.

A robot comprises an auger-based drive system, a memory, and a processor coupled with the memory and configured to control movement of the robot relative to a piled granular material in a bulk store, via the auger-based drive system, such that the robot traverses a first surface of the piled granular material in a mapping pattern. The processor is further configured to record a plurality of three-dimensional locations of the robot during the traversal in the mapping pattern. The processor or a computer system coupled with the processor is configured to assemble the plurality of three-dimensional locations of the robot into a three-dimensional surface map of the first surface of the piled granular material.

A method of propelling an object through a granular medium including granular material, wherein the object is provided with one or more rotatable portions, includes: providing the object submerged in the granular medium; and rotating at least one of the one or more rotatable portions about an axis of rotation to thereby move granular material adjacent the one or more rotatable portions and propel the object through the granular medium.

A method of propelling an object through a granular medium including granular material, wherein the object is provided with one or more rotatable portions, includes: providing the object submerged in the granular medium; and rotating at least one of the one or more rotatable portions about an axis of rotation to thereby move granular material adjacent the one or more rotatable portions and propel the object through the granular medium.

A vertical surface cleaning device comprising a main body, a cleaning arm, a cleaning head, and leg mechanisms with grippers. The cleaning head applies a cleaning fluid on a surface to carry out a cleaning operation. A waste collector is provided to collect a waste material arising from the cleaning operation. The grippers may remain in a grip or in a release state. The segments of the leg mechanisms are articulatable to configure a first group of the leg mechanisms to stably hold the main body at a first place with the grippers remaining in the grip state. A second group of the leg mechanisms move in a desired direction with their grippers in release state while the first group stably holds the main body. The first group of the leg mechanisms then moves in the same direction while the second group holds the main body at a second place.

An amphibious robot is provided. An aspect of the robot includes an elongated flexible body, actuators in the flexible body and spaced apart along a length of the flexible body. The actuators are configured to move the flexible body in a serpentine or concertina motion on land and in water. An additional aspect includes a camera coupled adjacent to an end of the flexible body, at least one sensor coupled to the flexible body, and a buoyancy controller located in the flexible body. Another aspect includes a power source coupled to the flexible body and configured to power the actuators, the camera, the sensors, and the buoyancy controller. Yet another aspect employs an electric controller to control the actuators and receive data from the sensors.

An amphibious robot is provided. An aspect of the robot includes an elongated flexible body, actuators in the flexible body and spaced apart along a length of the flexible body. The actuators are configured to move the flexible body in a serpentine or concertina motion on land and in water. An additional aspect includes a camera coupled adjacent to an end of the flexible body, at least one sensor coupled to the flexible body, and a buoyancy controller located in the flexible body. Another aspect includes a power source coupled to the flexible body and configured to power the actuators, the camera, the sensors, and the buoyancy controller. Yet another aspect employs an electric controller to control the actuators and receive data from the sensors.

A cable climbing robot includes a climbing front body and a detection body. The climbing front body includes a front body rack, duct propellers, a front body clasping units and a front body control modules, the duct propellers are mounted on the outer side of the front body rack; the front body clasping unit includes a front body clasping electric motor, a front body clasping transmission component and a front body clasping member; the front body clasping electric motor is fixedly mounted on the front body rack, and the front body clasping electric motor drives the front body clasping member via the front body clasping transmission component; the front body control module is mounted on the front body rack, and the front body control module is electrically connected to the duct propellers and the clasping electric motor.

A cable climbing robot includes a climbing front body and a detection body. The climbing front body includes a front body rack, duct propellers, a front body clasping units and a front body control modules, the duct propellers are mounted on the outer side of the front body rack; the front body clasping unit includes a front body clasping electric motor, a front body clasping transmission component and a front body clasping member; the front body clasping electric motor is fixedly mounted on the front body rack, and the front body clasping electric motor drives the front body clasping member via the front body clasping transmission component; the front body control module is mounted on the front body rack, and the front body control module is electrically connected to the duct propellers and the clasping electric motor.

A climbing robot vehicle comprises a vehicle (2) and the front and rear ends of the vehicle body are provided with wheels (3). The end of the vehicle body facing towards the wall is fixedly connected to a sucking mechanism. The sucking mechanism comprises a body, the body being a hollow cylinder (4). A cover plate (5) is provided above the hollow cylinder. The upper end face of the cover plate is fixedly connected with the vehicle body and the lower end face of the cover plate is fixedly connected with the outer edge of the upper end face of the hollow cylinder by means of the first blocks (43) spaced from each other. The inner wall of the hollow cylinder is provided with tangential nozzles (41). The space between the first blocks (43) forms a first exhaust duct (44) between the outer edge of the upper end face of the hollow cylinder and the lower end face of the cover. A gap is formed between the lower end face of the hollow cylinder and the wall, and the gap forms a second exhaust duct (42) between the outer edge of the lower end face of the hollow cylinder and the wall. The climbing robot vehicle can be sucked on various kinds of walls and has a strong sucking ability and a wide application range.